scoobey-do
7日前
NewHydrogen News Commentary - June 1, 2026
Germany's Euro Atlas and Phosmer have created a solution they're calling the Grey Shark Fox Trot. It's a fully autonomous drone submarine designed for long range maritime presence. Their clean hydrogen fuel cell version can stay submerged up to 16 weeks without resurfacing, covering a range of over 8,000 nautical miles!
NewHydrogen is a Publicly Traded Company
Stock Symbol: NEWH
About NewHydrogen, Inc.
NewHydrogen is developing ThermoLoop™ – a breakthrough technology that uses water and heat instead of electricity to produce the world's cheapest clean hydrogen. Hydrogen is important to modern life, and we can't live without it. Hydrogen is the key ingredient in making fertilizers needed to grow food for the world. It is also used for transportation, refining oil and making steel, glass, pharmaceuticals and more. Nearly all the hydrogen today is made from hydrocarbons like coal, oil, and natural gas, which are dirty and limited resources. Water, on the other hand, is an infinite and renewable worldwide resource. Currently, the most common way of making clean hydrogen is to split water into oxygen and hydrogen with electricity using an electrolyzer, a very expensive process. By using heat directly, we can dramatically reduce the use of expensive electricity. A massive source of inexpensive heat can be obtained from current and future power plants, especially small modular nuclear reactors. Working with a world class research team at UC Santa Barbara, our goal is to help usher in the clean hydrogen economy that Goldman Sachs estimated to have a future market value of $12 trillion.
scoobey-do
3週前
What is the business background of Dr. Cristian Rabiti of NuCube Energy per ChapGPT:
Here’s a summary of his professional and business background:
🧪 Technical & Academic Background
Dr. Rabiti has approximately 20 years of experience in the nuclear energy field. His expertise includes:
Nuclear reactor systems
Reactor physics
Energy systems optimization
Techno-economic analysis
Nuclear software simulation and modeling
Financial and strategic analysis for energy systems
🎓 Education
Ph.D. in Mechanical Engineering — University of Stuttgart (Germany)
Executive MBA — IE Business School (Madrid, Spain)
His combination of engineering and MBA training gave him both:
Deep technical expertise
Business and commercialization skills
🏛️ National Laboratory Experience
Before entering private industry, Dr. Rabiti worked at major U.S. national laboratories:
Argonne National Laboratory
Worked as a neutron transport software developer
Focused on reactor simulation tools and nuclear modeling
Idaho National Laboratory
At INL, he:
Led development of tools for techno-economic analysis
Studied how nuclear power could support:
Decarbonization
Grid stability
Integrated energy systems
Worked on advanced modeling for future nuclear technologies
He also held leadership roles within the:
American Nuclear Society Reactor Physics Division
🚀 Private Sector / Business Leadership
Ultra Safe Nuclear Corporation (USNC)
Dr. Rabiti later joined USNC as:
Director of Technology Strategy
His business responsibilities included:
Commercial strategy for microreactors
Market development
Licensing support
Integrated energy system planning
Nuclear deployment economics
He helped position USNC’s:
Micro Modular Reactor (MMR®) technology
for remote/off-grid energy applications such as:
Mining
Industrial operations
Remote communities
⚡ Current Business Activity
More recently, Dr. Rabiti has been associated with:
NuCube Energy
Public meeting records describe him presenting:
Reactor commercialization strategy
Advanced TRISO-fuel reactor concepts
High-temperature reactor technology
Business development opportunities in advanced nuclear power
💼 Business Reputation & Skills
Based on professional profiles and industry involvement, Dr. Rabiti is viewed as:
A technically sophisticated nuclear strategist
Strong in:
Financial analysis
Market development
Commercialization strategy
Energy transition planning
Industry recommendations describe him as:
Strong in commercial negotiations
Skilled in large-scale energy market strategy
Able to bridge engineering and business development
⭐ Simple Summary
Dr. Cristian Rabiti is a nuclear engineer and energy executive with experience spanning:
U.S. national laboratories
Nuclear software and reactor modeling
Advanced reactor commercialization
Energy economics and business strategy
He is especially known for helping advance:
Small modular reactors (SMRs)
Microreactors
Decarbonized energy systems
Nuclear commercialization efforts.
scoobey-do
3週前
On April 28, 2026, NewHydrogen Announces Strategic Collaboration with NuCube Energy to Explore Nuclear-Powered Clean Hydrogen Production.
On May 4, 2026, NuCube Opens Arizona Office and Appoints Chief Legal Officer
PHOENIX--(BUSINESS WIRE)--NuCube Energy, Inc. (“NuCube”), a developer of high-temperature modular microreactors, today announced the establishment of its initial on-the-ground presence in Phoenix and the appointment of Michael Green as Chief Legal Officer. The expansion follows NuCube's recent award under the U.S. Department of Energy Gateway for Accelerated Innovation in Nuclear (GAIN) program, and builds on momentum from its selection by the Department of Energy for the Nuclear Energy Launch Pad (USA) program, a competitive fast-track initiative for advanced nuclear deployment, announced this week.
I hope NewHydrogen and NuCube Energy succeed on building on each other's strengths. Good luck to all NewHydrogen investors.
scoobey-do
1月前
NewHydrogen Drives Toward Commercial Success
NewHydrogen, Inc. (OTCQB: NEWH), the developer of ThermoLoop™, a breakthrough technology that uses water and heat instead of electricity to produce the world’s cheapest clean hydrogen, today reported about its commercialization progress.
The Company’s recent announcements regarding pre-pilot plant technical validation and its collaboration with NuCube Energy to explore nuclear-powered hydrogen production represent important milestones along the commercialization pathway. NewHydrogen has completed the research phase of its development program and is now entering the engineering phase required for commercialization.
This transition followed the successful passage of Stage Gate One, a rigorous pre-pilot plant test. Based on NewHydrogen’s internal review and published literature, the Company is not aware of any other heat-based water-splitting technology that has met this combination of performance and engineering criteria.
Stage Gate One required ThermoLoop to meet the following thresholds:
* Maximum operating temperature below 1,000°C
* Demonstrated operation over more than 10 cycles
* Hydrogen production efficiency exceeding 75% of theoretical yield
* Defined industrial heat-integration strategy
* Formal process control and management-of-change framework in place
* All non-core balance-of-plant equipment utilizes commercially proven technologies
* Manageable separations
* Acceptable safety and toxicity profile
* No identified economic barriers to pilot-scale development
In addition to these technical achievements, NewHydrogen and NuCube Energy, Inc., recently initiated a strategic collaboration. NuCube is developing the NuSun™ compact solid-state fission reactor, a next-generation, factory-fabricated microreactor system engineered for rapid deployment and inherent safety and capable of producing high-temperature heat of up to 1,100 degrees Celsius. Underscoring the significance of this technology, NuCube was recently selected for the U.S. Department of Energy Launch Pad USA Program.
Under the memorandum of understanding, the companies will collaborate to explore the integration of their respective clean energy technologies.
“High-temperature heat is a vital component for unlocking the full economic potential of thermochemical hydrogen production,” said Steve Hill, CEO of NewHydrogen. “We believe NuCube Energy’s advanced reactor design could provide a compelling heat source for ThermoLoop™, and we look forward to jointly evaluating integration pathways that could accelerate the deployment of nuclear-driven clean hydrogen at scale.”
Mr. Hill concluded, “The world needs cheap clean hydrogen as soon as possible, which is our stated goal. In recent months we have dramatically picked up our pace along the commercialization pathway. Our engineering team is highly focused on building a dedicated ThermoLoop engineering test unit. This will allow us to determine commercial pilot plant specifications. With this unit in place and the ability to collect the required data, we will be ready to engage a major industry player to build a pilot plant.”
scoobey-do
1月前
NewHydrogen Announces Strategic Collaboration with NuCube Energy to Explore Nuclear-Powered Clean Hydrogen Production
Companies to evaluate integration of NuSun™ advanced solid-state nuclear technology with ThermoLoop™ for high-temperature clean hydrogen production
SANTA CLARITA, CA, (April 28, 2026) – NewHydrogen, Inc. (OTCQB: NEWH), the developer of ThermoLoop™, a breakthrough technology that uses water and heat instead of electricity to produce the world’s cheapest clean hydrogen, and NuCube Energy, Inc., an advanced nuclear technology company developing the NuSun™ high-temperature microreactor platform today announced a strategic collaboration to explore the integration of their respective clean energy technologies.
Under the memorandum of understanding, the companies will collaborate to evaluate the technical feasibility and potential synergies between NewHydrogen’s ThermoLoop thermochemical hydrogen production process and the NuSun™ compact solid-state fission reactor, a next-generation, factory-fabricated microreactor system engineered for rapid deployment and inherent safety and capable of producing high-temperature heat of up to 1,100 degrees Celsius.
The collaboration reflects a shared vision to advance innovative clean energy solutions, particularly in applications where the NuSun™ platform’s ability to provide consistent, carbon-free high-temperature heat could dramatically enhance thermochemical processes for low-cost hydrogen generation.
“High-temperature heat is the key to unlocking the full economic potential of thermochemical hydrogen production,” said Steve Hill, CEO of NewHydrogen. “We believe NuCube Energy’s advanced reactor design could provide a compelling heat source for ThermoLoop™, and we look forward to jointly evaluating integration pathways that could accelerate the deployment of clean hydrogen at scale.”
“Our NuSun platform is uniquely positioned to deliver consistent, high-temperature heat for industrial applications while maintaining an exceptional safety profile and minimal footprint,” said Dr. Cristian Rabiti, CEO of NuCube Energy. “By exploring integration with ThermoLoop™, we will demonstrate how our solid-state fission reactor technology can support efficient, large-scale clean hydrogen production, expand the role of nuclear energy as energy backbone of the industrial system, and transform both the cost and scalability of clean hydrogen.”
As part of the strategic collaboration, the companies intend to conduct joint validation efforts to assess performance parameters, integration considerations, and potential commercial applications. The evaluation will focus on determining how high-temperature nuclear heat could improve process efficiency and economics for thermochemical hydrogen production.
ThermoLoop, developed in collaboration with the University of California, Santa Barbara, is a breakthrough thermochemical water-splitting process that uses inexpensive heat instead of electricity to produce clean hydrogen. By leveraging heat from sources such as NuCube’s next-generation nuclear systems, ThermoLoop is designed to significantly reduce the cost of clean hydrogen production compared with other hydrogen generation technologies available in the world today.
Both companies believe that integrating advanced nuclear heat from the NuSun™ platform with thermochemical hydrogen processes could play a meaningful role in meeting growing global demand for scalable, low-carbon energy solutions.
“Strategic collaborations like this are essential as we work toward commercializing our ThermoLoop technology,” Mr. Hill added. “We are on schedule with our development timeline and remain optimistic about its potential to help transform the economics of clean hydrogen production.”
Watch the full Special Report video for more information: https://newhydrogen.com/special-report-nucube
scoobey-do
1月前
NewHydrogen to Release a Special Report on April 28, 2026
The Company will reveal a strategic collaboration for nuclear-powered clean hydrogen production
SANTA CLARITA, CA, (April 24, 2026) — NewHydrogen, Inc. (OTCQB: NEWH), the developer of ThermoLoop™, a breakthrough technology that uses water and heat instead of electricity to produce the world’s cheapest clean hydrogen, announced it will release a Special Report on Tuesday, April 28, 2026.
The Special Report will reveal the Company’s strategic collaboration with an advanced nuclear technology company to explore the integration of their respective clean energy technologies. This collaboration focuses on evaluating the technical feasibility and potential synergies between NewHydrogen’s ThermoLoop™ process and a next-generation, factory-fabricated microreactor system.
Register now to watch this Special Report when it premieres on Tuesday, April 28, 2026, at 4 PM EDT: https://newhydrogen.com/signup-042826
For more information about NewHydrogen, please visit www.NewHydrogen.com.
scoobey-do
2月前
About NewHydrogen, Inc. - Refresher Post
NewHydrogen is developing ThermoLoop™ — a breakthrough technology that uses water and heat instead of electricity to produce the world's cheapest clean hydrogen. Hydrogen is important to modern life, and we can't live without it. Hydrogen is the key ingredient in making fertilizers needed to grow food for the world. It is also used for transportation, refining oil and making steel, glass, pharmaceuticals and more. Nearly all the hydrogen today is made from hydrocarbons like coal, oil, and natural gas, which are dirty and limited resources. Water, on the other hand, is an infinite and renewable worldwide resource. Currently, the most common way of making clean hydrogen is to split water into oxygen and hydrogen with electricity using an electrolyzer, a very expensive process. By using heat directly, we can dramatically reduce the use of expensive electricity. A massive source of inexpensive heat can be obtained from current and future power plants, especially small modular nuclear reactors. Working with a world class research team at UC Santa Barbara, our goal is to help usher in the clean hydrogen economy that Goldman Sachs estimated to have a future market value of $12 trillion.
scoobey-do
2月前
NewHydrogen Completes Critical Pre-Pilot Plant Technical Validation - April 21 2026
NewHydrogen, Inc. (OTCQB: NEWH), the developer of ThermoLoop™, a breakthrough technology that uses water and heat instead of electricity to produce the world’s cheapest clean hydrogen, today announced that ThermoLoop has successfully completed a critical pre-pilot plant technical validation milestone. The Company will now proceed with construction of a dedicated ThermoLoop engineering test unit to determine commercial pilot plant specifications.
“We are thrilled to have completed the research phase of our development program and are now advancing into the engineering phase required for commercialization,” said NewHydrogen CEO Steve Hill. “To do so, ThermoLoop was required to pass ‘Stage Gate One,’ a very rigorous pre-pilot plant test. Based on our internal review and published literature, we are not aware of any other heat-based water-splitting technology that has met this combination of performance and engineering criteria."
Stage Gate One required ThermoLoop to meet the following engineering and performance criteria:
Maximum operating temperature below 1,000°C
Demonstrated operation over more than 10 cycles
Hydrogen production efficiency exceeding 75% of theoretical yield
Defined industrial heat-integration strategy
Formal process control and management-of-change framework in place
All non-core balance-of-plant equipment utilizes commercially proven technologies
Manageable separations
Acceptable safety and toxicity profile
No identified economic barriers to pilot-scale development
These benchmarks are explained by Chief Technology Officer Dr. Eric McFarland in a Special Report Video.
The ThermoLoop engineering test unit will be constructed by a University of California, Santa Barbara (“UCSB”) team led by Ryan Patrick, NewHydrogen Senior Chemical Engineer. The UCSB program is directed by Dr. Eric McFarland, NewHydrogen’s Chief Technology Officer, in collaboration with UCSB lead investigator Dr. Phil Christopher.
“Think of this next step as the transition from a scientific breakthrough to an industrial reality,” said Dr. McFarland. “Our previous lab unit demonstrated continuous flow, the fundamental requirement for a commercial plant. The objective of our engineering test unit is to validate around-the-clock performance and generate the data necessary to design our first commercial pilot plant.”
Mr. Hill concluded, “We not only expect that this next phase will generate the engineering data necessary to support pilot plant design but may also lead to the sale or license of our technology.”
scoobey-do
3月前
Question for ChatGPT - What is the background of Ryan Patrick who Joined NewHydrogen as Senior Chemical Engineer?
Per ChatGPT: "Here’s a clear, factual background on Ryan Patrick who joined NewHydrogen, Inc.:"
👨🔬 Professional Background
Position: Senior Chemical Engineer at NewHydrogen (appointed January 2026)
Works on scaling the company’s ThermoLoop™ hydrogen production technology from lab to commercial use
🔬 Areas of expertise
Thermochemical hydrogen production
High-temperature reaction systems
Materials-driven process development
Converting lab experiments into pilot-scale systems
🚀 Previous Experience
SpaceX
Worked in systems operations
Contributed to launch infrastructure upgrades and improvements
CZero Inc.
Led experimental campaigns in energy conversion technologies
Helped integrate experimental data into process models for scaling new technologies
🧪 Role at NewHydrogen
At NewHydrogen, Ryan Patrick:
Helps translate research into real-world production systems
Supports development of low-cost, clean hydrogen using heat instead of electricity
Is involved in process design for pilot and pre-commercial systems
He is also listed as a co-inventor (with the company’s CTO and others) on a 2026 international patent application related to hydrogen production technology
🧠 Overall Profile
Career focus: Advanced energy systems & chemical engineering
Strength: Bridging experimental research ? scalable industrial processes
Industries: Aerospace (SpaceX) and clean energy / hydrogen
⭐ In plain terms
Ryan Patrick is a technical engineer focused on scaling new energy technologies, especially hydrogen production. His background combines:
Hands-on experimental work
Systems engineering experience (SpaceX)
Clean energy technology development
scoobey-do
3月前
NewHydrogen Files Its First International Patent for Its ThermoLoop Technology - March 12 2026
NewHydrogen, Inc. (OTCQB: NEWH), the developer of ThermoLoop™, a breakthrough technology that uses water and heat instead of electricity to produce low-cost clean hydrogen, today announced that it has jointly filed an international patent application with the University of California, Santa Barbara (“UCSB”) for its innovative clean hydrogen production process and associated technology titled “Coupled Multi-phase Oxidation-Reducing For Production of Chemicals.”
The inventors of the patent application include Dr. Eric McFarland, the Company’s Chief Technology Officer, and Mr. Ryan Patrick, the Company’s Senior Chemical Engineer.
NewHydrogen filed an international patent application under the Patent Cooperation Treaty (PCT) that further expands the basis for the Company’s ThermoLoop thermochemical water splitting process together with new material compositions discovered by the UCSB technology team and the new isothermal hydrogen process.
A key innovation in the filing is the use of artificial intelligence and Large Language Models (LLM) to discover and design optimal materials for these reaction networks. This allows the team to identify and optimize complex mixed-metal oxides and other regenerable materials that can operate efficiently within specific temperature ranges. For example, the technology enables hydrogen production at temperatures below 1000°C, which avoids the energy-inefficient large temperature swings required by previous methods.
"This international patent filing represents a critical milestone in our mission to produce the world's most cost-effective clean hydrogen," said Steve Hill, CEO of NewHydrogen. "By combining advanced material science with AI-driven discovery, we are creating a scalable, carbon-free path for hydrogen production that bypasses the high costs of electricity-intensive electrolysis."
The PCT application establishes a filing date in all 158 contracting countries, providing the Company with a robust foundation to protect its intellectual property as it moves toward commercialization.
scoobey-do
3月前
NewHydrogen News Commentary - March 9, 2026
Special Report: New Hydrogen announces its first production of clean hydrogen
https ://www.youtube.com/watch?v=RYy4SyquR6U (Please remove the space after the https)
Factories are about to think, move, and power themselves very differently. Industrial giants like Hyundai Motor Group have already started building what they call a truly advanced industrial ecosystem where robotics, AI, clean energy, and manufacturing, are designed together from the start.
NewHydrogen is a Publicly Traded Company
https://newhydrogen.com/fasttrack
Stock Symbol: NEWH
scoobey-do
3月前
NewHydrogen News Commentary - March 2, 2026
NewHydrogen
Imagine carrying a toothpaste tube in your backpack that can power a drone for hours. No pressure tanks, no filling stations, just a cartridge you can carry, store, and deploy anywhere.
NewHydrogen is a Publicly Traded Company
Stock Symbol: NEWH
Learn More
About NewHydrogen, Inc.
NewHydrogen is developing ThermoLoop™ – a breakthrough technology that uses water and heat instead of electricity to produce the world's cheapest clean hydrogen. Hydrogen is important to modern life, and we can't live without it. Hydrogen is the key ingredient in making fertilizers needed to grow food for the world. It is also used for transportation, refining oil and making steel, glass, pharmaceuticals and more. Nearly all the hydrogen today is made from hydrocarbons like coal, oil, and natural gas, which are dirty and limited resources. Water, on the other hand, is an infinite and renewable worldwide resource. Currently, the most common way of making clean hydrogen is to split water into oxygen and hydrogen with electricity using an electrolyzer, a very expensive process. By using heat directly, we can dramatically reduce the use of expensive electricity. A massive source of inexpensive heat can be obtained from current and future power plants, especially small modular nuclear reactors. Working with a world class research team at UC Santa Barbara, our goal is to help usher in the clean hydrogen economy that Goldman Sachs estimated to have a future market value of $12 trillion.
scoobey-do
5月前
Ryan Patrick Joins NewHydrogen as Senior Chemical Engineer - January 13 2026
NewHydrogen, Inc. (OTCQB:NEWH), the developer of ThermoLoop™, a breakthrough technology that uses water and heat rather than renewable electricity to produce the world’s cheapest clean hydrogen, today announced the appointment of Ryan Patrick as Senior Chemical Engineer.
Patrick's work with NewHydrogen supports the development of cost-effective, entropy-driven thermochemical water-splitting technology. His work focuses on translating laboratory-scale experimental results into pilot-scale and pre-commercial process designs, with an emphasis on thermochemical hydrogen production, high-temperature reaction systems, and materials-driven process development.
“Few engineers possess Ryan’s level of practical and technical depth in experimental design and execution,” said Steve Hill, CEO of NewHydrogen. “His experience evaluating, adapting, and commercializing novel technologies aligns perfectly with our mission to deliver the world’s cheapest green hydrogen.”
“I’m excited to join the talented team at NewHydrogen and help advance a truly game-changing technology,” said Patrick. “Scaling up ThermoLoop™ is a unique opportunity to apply my engineering knowledge to accelerate the global transition to clean, cheap hydrogen.”
Patrick most recently served in systems operations at SpaceX, contributing to upgrades and infrastructure improvements for launch activities. Earlier in his career, he led experimental campaigns supporting novel energy conversion technologies at CZero Inc., integrating experimental results into process models to guide technology development and scale-up.
To learn more about NewHydrogen’s work with leading scientists at UC Santa Barbara to develop the world's cheapest green hydrogen, please visit NewHydrogen.com.
About NewHydrogen, Inc.
NewHydrogen is developing ThermoLoop™ — a breakthrough technology that uses water and heat instead of electricity to produce the world's cheapest clean hydrogen. Hydrogen is important to modern life, and we can't live without it. Hydrogen is the key ingredient in making fertilizers needed to grow food for the world. It is also used for transportation, refining oil and making steel, glass, pharmaceuticals and more. Nearly all the hydrogen today is made from hydrocarbons like coal, oil, and natural gas, which are dirty and limited resources. Water, on the other hand, is an infinite and renewable worldwide resource. Currently, the most common way of making clean hydrogen is to split water into oxygen and hydrogen with electricity using an electrolyzer, a very expensive process. By using heat directly, we can dramatically reduce the use of expensive electricity. A massive source of inexpensive heat can be obtained from current and future power plants, especially small modular nuclear reactors. Working with a world class research team at UC Santa Barbara, our goal is to help usher in the clean hydrogen economy that Goldman Sachs estimated to have a future market value of $12 trillion.
scoobey-do
6月前
NewHydrogen Reports Significant 2025 ThermoLoop™ Progress - December 16 2025
NewHydrogen, Inc. (OTCQB: NEWH), the developer of ThermoLoop™, a breakthrough technology that uses water and heat instead of electricity to produce the world’s cheapest clean hydrogen, today provided an update outlining significant milestones reached during 2025 and the next steps for 2026.
“NewHydrogen has made significant progress towards its goal of developing ThermoLoop that can potentially produce the world’s cheapest clean hydrogen,” said Steve Hill, NewHydrogen’s CEO.
Working with the University of California Santa Barbara (UCSB), ThermoLoop is a novel thermochemical process that uses inexpensive heat instead of expensive electricity to dramatically reduce the cost of clean hydrogen production.
NewHydrogen has achieved many significant milestones during 2025:
Publicly disclosed the science behind its ThermoLoop™ technology, a game changer compared to conventional low performance electrolyzer technology. Heat based systems are more scalable and have the potential to be cheaper than electrolyzer systems. A short explainer video that describes ThermoLoop technology can be found at: .
Jointly filed two patent applications in the United States with the University of California, Santa Barbara (“UCSB”) for its innovative hydrogen production process. The first patent, titled “Coupled Multi-Phase Oxidation-Reduction for Production of Chemicals,” introduces a novel thermochemical method for splitting water into hydrogen and oxygen without relying on expensive electrolyzers. The second patent titled “Improved Materials and Methods For Production of Chemicals By Thermochemical Looping,” is a comprehensive provisional patent application that describes the most recent improvements to the Company’s ThermoLoop thermochemical water splitting process together with new material compositions discovered by the UCSB technology team and the first disclosure of the new isothermal hydrogen process.
NewHydrogen’s common stock began trading on the OTCQB Venture Market. under the ticker symbol “NEWH” effective April 21, 2025. The OTCQB Venture Market is a significant step up from the Pink Open Market and is designed for early-stage and developing U.S. and international companies. Management believes the uplisting will expand its visibility to a broader group of U.S. and international investors and provide improved liquidity for its stock as it advances its ThermoLoop platform toward commercialization.
Appointed Dr. Eric McFarland as Chief Technology Officer and Mr. Sundar Narayanan as Director of Process Engineering. Dr. Austin Morales joined the UCSB Technology Team to help develop the Company’s cost-effective thermochemical water splitting technology.
Released a Special Report featuring the first public demonstration of its functioning ThermoLoop lab benchtop unit producing hydrogen in real-time (https://newhydrogen.com/special-report), highlighting a significant milestone and advancement from previous iterations of ThermoLoop technology.
Announced its plan of integrating ThermoLoop with current and future conventional and nuclear power plants as sources of heat. The Company described the compelling technical reasons why Small Modular Reactors (SMRs) are the perfect pairing for the Company’s technology. Integrating ThermoLoop into SMR plants could create a new class of multi-output clean energy facilities capable of producing electricity and hydrogen continuously, efficiently, and at scale.
NewHydrogen seeks to achieve additional milestones moving forward, including:
Continue exploring additional and improved multi-pronged novel material systems, reactors, and chemical process designs for thermochemical cycles that can be scaled into a process for cost effectively producing hydrogen from water.
Foster partnerships with SMR technology companies. Pairing SMRs with ThermoLoop offers a powerful co-generation solution that can significantly improve project economics by producing both electricity and hydrogen from the same heat source.
“While we work to achieve additional milestones moving forward, we are highly optimistic about bringing ThermopLoop to market in the not too distant future,” Mr. Hill said. “As high-growth industries continue to adopt new and improved technologies to produce clean hydrogen, the market opportunity for customer adoption and revenue generation is tremendous for a solution like ours.”
delerious1
6月前
By
Evan Williams
Published Nov 24, 2025
Evan Williams is an automotive journalist and mechanical engineering technologist with more than a decade of experience in the industry. He has written for the Toronto Star and AutoTrader Canada and previously served as editor of Wheelscene.ca. A four-time Canadian Automotive Journalism Award winner, he is the current President of the Automobile Journalists Association of Canada, where he oversees the Canadian Car of the Year Awards program. At CarBuzz for the last year, Evan uses his engineering background to analyze vehicle tech and patents, with a focus on the details that defines great cars.
Vee, flat, inline. Over the years, Ferrari has probably tried more engine layouts than just about any other automaker. Last year, the Italian sports car company got a patent for the most out-of-this-world idea yet: an engine that runs upside down. Ferrari is continuing to work on this inverted hydrogen combustion engine. Its latest patent, recently uncovered by CarBuzz, describes how the company could actually get this bonkers design to work.
Put The Engine Down, Flip It And Reverse It
Ferrari Engine Patent
Ferrari/USPTO
The solution goes against everything we know about engines. Ferrari would shut off the oil pump and stop the flow to moving components before the engine was turned off. Just before the crank stopped rotating, it would have its oil supply shut off.
Ferrari's original patent described an engine that would run by burning hydrogen. That's not exactly unique, with Toyota and others working on the same idea. What makes this one different is that it is upside down. Instead of the spark plug at the top and the crankshaft at the bottom, it flips that arrangement. Pop the hood and you're looking at the oil pan.
The reason for the strange design is to free up space. Ferrari said it leaves more room for hydrogen fuel tanks. The first two patents describe how the company would add boost. A gear-driven supercharger in the first one, turbos in the second. This one finally solves the problem of inverting the engine.
Lubrication is essential in a combustion engine. The crankshaft and camshaft bushings need a film of oil, or they will overheat and fail spectacularly in a hurry. Since the beginning of internal combustion, it's been handled by nearly every engine in the exact same way: The oil sits in a pan at the bottom and is pumped to the top. Gravity pulls it back into the pan.
By
Viknesh Vijayenthiran
Oct 20, 2025
Ferrari's problem is that when you put the crankshaft at the top, all the oil flows away from it. The only place it can go is down, where it will run immediately into the open underside of the pistons. It will fill the pistons, and, if the engine isn't running, will flow past the piston rings into the combustion chamber.
Electric Oil Pump Could Fix Ferrari's Strange Problem
2023 Ferrari Purosangue 6.5L NA F140 IA V12 Engine
If your combustion chamber is full of oil, you're going to get dirty combustion, blue smoke, and an unhappy engine. If enough oil pools, it will drown the spark plug and could even hydrolock the engine. That would certainly kill the engine in dramatic fashion.
So Ferrari's engineers have come up with a solution. The engine would use a dry-sump system, where the oil is stored in a separate tank. That leaves less oil to run down into the cylinders at shut-down.
The engine would use electric oil pumps instead of traditional cam-driven pumps. This lets them adjust flow and turn the pump on and off as needed, generally one second, but anywhere from 0.5 to 2.5 seconds ahead of shutting off the ignition and fuel to cylinders, the car's ECU would tell that oil pump to stop.
Jets underneath the crankshaft make sure it stays oiled appropriately. When the pump turns off, there's no more oil spraying. The rotation of the crank would then throw the remaining oil against the sides of the crankcase where it would flow into drains that take it to the oil tank. This is only intended to last a second, to happen when the engine stops rotating almost immediately after. Because of that quick stop, the engine shouldn't lose critical lubrication.
By
Evan Williams
Aug 14, 2025
It's a risky way to solve a problem it created. We're still not even sure exactly how flipping the engine saves that much space. But Ferrari has always been willing to push the envelope. And it does have a long-time racing and road partnership with oil company Shell. It'll be interesting to see if this one makes it to production.
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rich2
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